We introduce a novel time-resolved photoemission-based near-field illumination method, referred to as femtosecond normal-incidence photoemission microscopy (NI-PEEM). The change from the commonly used grazing-incidence to normal-incidence illumination geometry has a major impact on the achievable contrast and, hence, on the imaging potential of transient local near fields. By imaging surface plasmon polaritons in normal light incidence geometry, the observed fringe spacing directly resembles the wavelength of the plasmon wave. Our novel approach provides a direct descriptive visualization of SPP wave packets propagating across a metal surface
International audienceThe exploitation of plasmon resonances to promote the interaction between conj...
Photoemitters and plasmonic devices may become critical elements of photonics, which is being develo...
Time-resolved photoemission electron microscopy images recorded using a combination of ultrafast 800...
International audienceA key challenge to plasmonics is the development of experimental tools allowin...
The design of noble-metal plasmonic devices and nanocircuitry requires a fundamental understanding a...
The near-field properties and dynamics of plasmonic nanostructures play a crucial role in several fu...
We report a time-resolved normal-incidence photoemission electron microscope with an imaging time-of...
We experimentally and theoretically visualize the propagation of short-range surface plasmon polarit...
Photoemission electron microscopy (PEEM) is an imaging method which uses electrons excited through t...
We image the field enhancement at Ag nanostructures using femtosecond laser pulses with a center wav...
Both photons and electrons may be used to excite surface plasmon polaritons, the collective charge d...
We record time-resolved nonlinear photoemission electron microscopy (tr-PEEM) images of propagating ...
Conference paper: 28TH INTERNATIONAL CONFERENCE ON THE PHYSICS OF SEMICONDUCTORS, July 24-28 2006 VI...
In combining time-resolved two-photon photoemission (TR-2PPE) and photoemission electron microscopy ...
International audienceWe use a photon scanning tunneling microscope to probe the field of surface pl...
International audienceThe exploitation of plasmon resonances to promote the interaction between conj...
Photoemitters and plasmonic devices may become critical elements of photonics, which is being develo...
Time-resolved photoemission electron microscopy images recorded using a combination of ultrafast 800...
International audienceA key challenge to plasmonics is the development of experimental tools allowin...
The design of noble-metal plasmonic devices and nanocircuitry requires a fundamental understanding a...
The near-field properties and dynamics of plasmonic nanostructures play a crucial role in several fu...
We report a time-resolved normal-incidence photoemission electron microscope with an imaging time-of...
We experimentally and theoretically visualize the propagation of short-range surface plasmon polarit...
Photoemission electron microscopy (PEEM) is an imaging method which uses electrons excited through t...
We image the field enhancement at Ag nanostructures using femtosecond laser pulses with a center wav...
Both photons and electrons may be used to excite surface plasmon polaritons, the collective charge d...
We record time-resolved nonlinear photoemission electron microscopy (tr-PEEM) images of propagating ...
Conference paper: 28TH INTERNATIONAL CONFERENCE ON THE PHYSICS OF SEMICONDUCTORS, July 24-28 2006 VI...
In combining time-resolved two-photon photoemission (TR-2PPE) and photoemission electron microscopy ...
International audienceWe use a photon scanning tunneling microscope to probe the field of surface pl...
International audienceThe exploitation of plasmon resonances to promote the interaction between conj...
Photoemitters and plasmonic devices may become critical elements of photonics, which is being develo...
Time-resolved photoemission electron microscopy images recorded using a combination of ultrafast 800...